Category:Cell adhesion

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Файлове в категория „Cell adhesion“

Показани са 200 от общо 1115 файла в тази категория.

• -Adrenergic-Inhibition-of-Contractility-in-L6-Skeletal-Muscle-Cells-pone.0022304.s002.ogv 17 сек, 320 × 240; 877 КБ
  
• A-Comprehensive-Model-of-the-Spatio-Temporal-Stem-Cell-and-Tissue-Organisation-in-the-Intestinal-pcbi.1001045.s004.ogv 54 сек, 300 × 400; 12,68 МБ
  
• A-Comprehensive-Model-of-the-Spatio-Temporal-Stem-Cell-and-Tissue-Organisation-in-the-Intestinal-pcbi.1001045.s005.ogv 58 сек, 300 × 400; 10,89 МБ
  
• A-Comprehensive-Panel-of-Three-Dimensional-Models-for-Studies-of-Prostate-Cancer-Growth-Invasion-pone.0010431.s013.ogv 1 мин 6 сек, 524 × 384; 8,71 МБ
  
• A-Gene-Expression-Signature-of-Invasive-Potential-in-Metastatic-Melanoma-Cells-pone.0008461.s008.ogv 15 сек, 640 × 480; 2,11 МБ
  
• A-Gene-Expression-Signature-of-Invasive-Potential-in-Metastatic-Melanoma-Cells-pone.0008461.s009.ogv 15 сек, 640 × 480; 2,37 МБ
  
• A-Mathematical-Model-for-EphEphrin-Directed-Segregation-of-Intermingled-Cells-pone.0111803.s003.ogv 1 мин 12 сек, 640 × 480; 19,37 МБ
  
• A-Mathematical-Model-for-EphEphrin-Directed-Segregation-of-Intermingled-Cells-pone.0111803.s004.ogv 1 мин 36 сек, 640 × 480; 59,23 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s016.ogv 1 мин 3 сек, 640 × 480; 6,71 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s017.ogv 1 мин 2 сек, 640 × 480; 6,06 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s018.ogv 1 мин 2 сек, 640 × 480; 6,04 МБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s019.ogv 29 сек, 640 × 480; 630 КБ
  
• A-Multi-cell-Multi-scale-Model-of-Vertebrate-Segmentation-and-Somite-Formation-pcbi.1002155.s020.ogv 2 мин 5 сек, 640 × 480; 5,94 МБ
  
• A-Novel-CXCL10-Based-GPI-Anchored-Fusion-Protein-as-Adjuvant-in-NK-Based-Tumor-Therapy-pone.0072749.s006.ogv 38 сек, 640 × 480; 2,82 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s004.ogv 17 сек, 720 × 576; 6,45 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s005.ogv 40 сек, 800 × 600; 3,8 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s006.ogv 40 сек, 800 × 600; 3,06 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s007.ogv 33 сек, 720 × 576; 2,96 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s008.ogv 18 сек, 720 × 576; 4,73 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s009.ogv 18 сек, 720 × 576; 4,07 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s010.ogv 18 сек, 720 × 576; 4,6 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s011.ogv 18 сек, 720 × 576; 4,73 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s012.ogv 18 сек, 720 × 576; 3,79 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s013.ogv 18 сек, 720 × 576; 4,42 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s014.ogv 18 сек, 720 × 576; 4,49 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s015.ogv 18 сек, 720 × 576; 5,04 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s016.ogv 18 сек, 720 × 576; 4,87 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s017.ogv 18 сек, 720 × 576; 3,14 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s018.ogv 59 сек, 640 × 480; 9,51 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s019.ogv 59 сек, 640 × 480; 9,88 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s020.ogv 59 сек, 640 × 480; 9,43 МБ
  
• A-Novel-Validation-Algorithm-Allows-for-Automated-Cell-Tracking-and-the-Extraction-of-Biologically-pone.0027315.s021.ogv 59 сек, 640 × 480; 9,73 МБ
  
• A-Photoactivatable-Nanopatterned-Substrate-for-Analyzing-Collective-Cell-Migration-with-Precisely-pone.0091875.s001.ogv 12 сек, 334 × 334; 794 КБ
  
• A-Photoactivatable-Nanopatterned-Substrate-for-Analyzing-Collective-Cell-Migration-with-Precisely-pone.0091875.s002.ogv 12 сек, 334 × 334; 658 КБ
  
• A-Polarised-Population-of-Dynamic-Microtubules-Mediates-Homeostatic-Length-Control-in-Animal-Cells-pbio.1000542.s005.ogv 26 сек, 96 × 428; 522 КБ
  
• A-Polarised-Population-of-Dynamic-Microtubules-Mediates-Homeostatic-Length-Control-in-Animal-Cells-pbio.1000542.s006.ogv 14 сек, 153 × 245; 830 КБ
  
• A-Polarised-Population-of-Dynamic-Microtubules-Mediates-Homeostatic-Length-Control-in-Animal-Cells-pbio.1000542.s007.ogv 5,1 сек, 223 × 225; 500 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s002.ogv 7,2 сек, 696 × 520; 237 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s003.ogv 7,2 сек, 696 × 520; 226 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s004.ogv 1,8 сек, 696 × 520; 231 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s005.ogv 3,6 сек, 696 × 520; 286 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s006.ogv 5,1 сек, 696 × 520; 208 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s007.ogv 5,1 сек, 696 × 520; 155 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s008.ogv 3,6 сек, 696 × 520; 222 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s009.ogv 9,0 сек, 696 × 520; 263 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s010.ogv 7,0 сек, 696 × 520; 371 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s011.ogv 7,2 сек, 696 × 520; 434 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s012.ogv 3,6 сек, 696 × 520; 252 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s013.ogv 3,6 сек, 696 × 520; 309 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s014.ogv 3,6 сек, 696 × 520; 125 КБ
  
• A-Role-for-PP1NIPP1-in-Steering-Migration-of-Human-Cancer-Cells-pone.0040769.s015.ogv 3,6 сек, 696 × 520; 225 КБ
  
• A-Small-Physiological-Electric-Field-Mediated-Responses-of-Extravillous-Trophoblasts-Derived-from-pone.0092252.s002.ogv 11 сек, 1280 × 1024; 1,34 МБ
  
• A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s004.ogv 2,4 сек, 346 × 512; 408 КБ
  
• A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s005.ogv 2,0 сек, 276 × 512; 258 КБ
  
• A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s006.ogv 2,0 сек, 326 × 511; 226 КБ
  
• A-Src-Tks5-Pathway-Is-Required-for-Neural-Crest-Cell-Migration-during-Embryonic-Development-pone.0022499.s007.ogv 1,6 сек, 333 × 464; 208 КБ
  
• A-Universal-System-for-Highly-Efficient-Cardiac-Differentiation-of-Human-Induced-Pluripotent-Stem-pone.0018293.s012.ogv 29 сек, 960 × 720; 3,26 МБ
  
• A-Universal-System-for-Highly-Efficient-Cardiac-Differentiation-of-Human-Induced-Pluripotent-Stem-pone.0018293.s013.ogv 30 сек, 960 × 720; 7,96 МБ
  
• A-Universal-System-for-Highly-Efficient-Cardiac-Differentiation-of-Human-Induced-Pluripotent-Stem-pone.0018293.s014.ogv 11 сек, 560 × 416; 3,86 МБ
  
• A-Universal-System-for-Highly-Efficient-Cardiac-Differentiation-of-Human-Induced-Pluripotent-Stem-pone.0018293.s015.ogv 16 сек, 560 × 416; 3,01 МБ
  
• A-ZO-151-Integrin-Complex-Regulates-Cytokinesis-Downstream-of-PKC-in-NCI-H460-Cells-Plated-on-pone.0070696.s002.ogv 15 сек, 323 × 326; 776 КБ
  
• A-ZO-151-Integrin-Complex-Regulates-Cytokinesis-Downstream-of-PKC-in-NCI-H460-Cells-Plated-on-pone.0070696.s003.ogv 1,4 сек, 187 × 177; 21 КБ
  
• A-ZO-151-Integrin-Complex-Regulates-Cytokinesis-Downstream-of-PKC-in-NCI-H460-Cells-Plated-on-pone.0070696.s004.ogv 1,4 сек, 187 × 177; 20 КБ
  
• A-ZO-151-Integrin-Complex-Regulates-Cytokinesis-Downstream-of-PKC-in-NCI-H460-Cells-Plated-on-pone.0070696.s005.ogv 1,7 сек, 672 × 648; 306 КБ
  
• A-ZO-151-Integrin-Complex-Regulates-Cytokinesis-Downstream-of-PKC-in-NCI-H460-Cells-Plated-on-pone.0070696.s006.ogv 3,3 сек, 672 × 648; 1,4 МБ
  
• Accelerated-Wound-Closure-In-Vitro-by-Fibroblasts-from-a-Subgroup-of-Cleft-LipPalate-Patients-Role-pone.0111752.s008.ogv 12 сек, 1020 × 768; 29,02 МБ
  
• Accelerated-Wound-Closure-In-Vitro-by-Fibroblasts-from-a-Subgroup-of-Cleft-LipPalate-Patients-Role-pone.0111752.s009.ogv 12 сек, 1020 × 768; 29,57 МБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s001.ogv 10 сек, 300 × 230; 1022 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s002.ogv 2,6 сек, 300 × 286; 72 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s003.ogv 8,2 сек, 280 × 300; 355 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s004.ogv 5,3 сек, 280 × 300; 90 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s005.ogv 20 сек, 150 × 82; 264 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s006.ogv 17 сек, 242 × 300; 267 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s007.ogv 17 сек, 522 × 150; 909 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s008.ogv 2,3 сек, 380 × 294; 1,65 МБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s009.ogv 2,3 сек, 300 × 160; 429 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s010.ogv 1,3 сек, 300 × 134; 475 КБ
  
• Actin-Independent-Behavior-and-Membrane-Deformation-Exhibited-by-the-Four-Transmembrane-Protein-M6a-pone.0026702.s011.ogv 13 сек, 300 × 220; 314 КБ
  
• Adaptive-Müller-cell-responses-to-microglial-activation-mediate-neuroprotection-and-coordinate-1742-2094-8-173-S1.ogv 22 сек, 1244 × 1084; 6,96 МБ
  
• Adaptive-Müller-cell-responses-to-microglial-activation-mediate-neuroprotection-and-coordinate-1742-2094-8-173-S2.ogv 16 сек, 636 × 932; 4,93 МБ
  
• Adaptive-Müller-cell-responses-to-microglial-activation-mediate-neuroprotection-and-coordinate-1742-2094-8-173-S3.ogv 16 сек, 636 × 984; 3,46 МБ
  
• 
  Adhesion diagram.jpg 359 × 252; 84 КБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s017.ogv 1 мин 1 сек, 637 × 616; 7,11 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s018.ogv 1 мин 1 сек, 588 × 568; 6,38 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s019.ogv 59 сек, 637 × 616; 6,8 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s020.ogv 1 мин 1 сек, 588 × 568; 6,55 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s021.ogv 1 мин 1 сек, 637 × 616; 7,29 МБ
  
• Adhesion-Failures-Determine-the-Pattern-of-Choroidal-Neovascularization-in-the-Eye-A-Computer-pcbi.1002440.s022.ogv 1 мин 1 сек, 637 × 616; 7,16 МБ
  
• Adhesion-Molecule-Expression-and-Function-of-Primary-Endothelial-Cells-in-Benign-and-Malignant-pone.0091808.s001.ogv 20 сек, 640 × 480; 5,08 МБ
  
• Adhesion-Molecule-Expression-and-Function-of-Primary-Endothelial-Cells-in-Benign-and-Malignant-pone.0091808.s002.ogv 20 сек, 640 × 480; 12,58 МБ
  
• Adhesion-Molecule-Expression-and-Function-of-Primary-Endothelial-Cells-in-Benign-and-Malignant-pone.0091808.s003.ogv 20 сек, 640 × 480; 9,16 МБ
  
• Adhesion-molecule-periplakin-is-involved-in-cellular-movement-and-attachment-in-pharyngeal-squamous-1471-2121-12-41-S1.ogv 13 сек, 328 × 328; 11,67 МБ
  
• Adhesion-molecule-periplakin-is-involved-in-cellular-movement-and-attachment-in-pharyngeal-squamous-1471-2121-12-41-S2.ogv 15 сек, 328 × 328; 13,33 МБ
  
• Adhesion-molecule-periplakin-is-involved-in-cellular-movement-and-attachment-in-pharyngeal-squamous-1471-2121-12-41-S3.ogv 15 сек, 328 × 328; 3,52 МБ
  
• Adhesion-molecule-periplakin-is-involved-in-cellular-movement-and-attachment-in-pharyngeal-squamous-1471-2121-12-41-S4.ogv 15 сек, 328 × 328; 1,91 МБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s006.ogv 14 сек, 640 × 480; 1,69 МБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s007.ogv 20 сек, 720 × 480; 1,21 МБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s008.ogv 6,0 сек, 640 × 480; 647 КБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s009.ogv 13 сек, 720 × 480; 1,8 МБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s010.ogv 22 сек, 720 × 480; 3,77 МБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s011.ogv 24 сек, 640 × 480; 2,47 МБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s012.ogv 22 сек, 640 × 480; 927 КБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s013.ogv 12 сек, 640 × 480; 1,74 МБ
  
• Adult-Subependymal-Neural-Precursors-but-Not-Differentiated-Cells-Undergo-Rapid-Cathodal-Migration-pone.0023808.s014.ogv 27 сек, 640 × 480; 2,5 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s001.ogv 17 сек, 1200 × 800; 2,51 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s002.ogv 21 сек, 1200 × 800; 1,71 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s003.ogv 21 сек, 1200 × 800; 1,38 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s004.ogv 21 сек, 1200 × 800; 2,33 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s005.ogv 21 сек, 1200 × 800; 1,75 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s006.ogv 17 сек, 1200 × 800; 1,6 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s007.ogv 17 сек, 1200 × 800; 1,29 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s008.ogv 21 сек, 1200 × 800; 1,08 МБ
  
• Advancing-Edge-Speeds-of-Epithelial-Monolayers-Depend-on-Their-Initial-Confining-Geometry-pone.0153471.s009.ogv 17 сек, 1200 × 800; 726 КБ
  
• Alterations-in-Ovarian-Cancer-Cell-Adhesion-Drive-Taxol-Resistance-by-Increasing-Microtubule-srep09529-s2.ogv 4,1 сек, 512 × 512; 401 КБ
  
• Alterations-in-Ovarian-Cancer-Cell-Adhesion-Drive-Taxol-Resistance-by-Increasing-Microtubule-srep09529-s3.ogv 2,9 сек, 512 × 512; 176 КБ
  
• Altering-FAK-Paxillin-Interactions-Reduces-Adhesion-Migration-and-Invasion-Processes-pone.0092059.s003.ogv 8,6 сек, 241 × 224; 490 КБ
  
• Altering-FAK-Paxillin-Interactions-Reduces-Adhesion-Migration-and-Invasion-Processes-pone.0092059.s004.ogv 8,6 сек, 300 × 232; 531 КБ
  
• Altering-FAK-Paxillin-Interactions-Reduces-Adhesion-Migration-and-Invasion-Processes-pone.0092059.s005.ogv 8,6 сек, 274 × 274; 1,23 МБ
  
• An-Adhesion-Dependent-Switch-between-Mechanisms-That-Determine-Motile-Cell-Shape-pbio.1001059.s010.ogv 7,0 сек, 256 × 256; 276 КБ
  
• An-Adhesion-Dependent-Switch-between-Mechanisms-That-Determine-Motile-Cell-Shape-pbio.1001059.s011.ogv 7,0 сек, 256 × 256; 233 КБ
  
• An-Adhesion-Dependent-Switch-between-Mechanisms-That-Determine-Motile-Cell-Shape-pbio.1001059.s012.ogv 10 сек, 256 × 256; 453 КБ
  
• An-Adhesion-Dependent-Switch-between-Mechanisms-That-Determine-Motile-Cell-Shape-pbio.1001059.s013.ogv 15 сек, 256 × 256; 164 КБ
  
• An-Adhesion-Dependent-Switch-between-Mechanisms-That-Determine-Motile-Cell-Shape-pbio.1001059.s014.ogv 25 сек, 256 × 256; 806 КБ
  
• An-Adhesion-Dependent-Switch-between-Mechanisms-That-Determine-Motile-Cell-Shape-pbio.1001059.s015.ogv 18 сек, 720 × 496; 9,83 МБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 1.ogv 12 сек, 1222 × 866; 536 КБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 2.ogv 12 сек, 1222 × 731; 424 КБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 3.ogv 1 мин 19 сек, 800 × 600; 9,23 МБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 4.ogv 1 мин 20 сек, 800 × 600; 7,37 МБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 5.ogv 1 мин 23 сек, 800 × 600; 8,75 МБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 6.ogv 1 мин 19 сек, 800 × 600; 6,18 МБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 7.ogv 1 мин 20 сек, 800 × 600; 6,51 МБ
  
• An-Analysis-of-Trafficking-Receptors-Shows-that-CD44-and-P-Selectin-Glycoprotein-Ligand-1-Video 8.ogv 55 сек, 800 × 600; 8,54 МБ
  
• An-Improved-Chamber-for-Direct-Visualisation-of-Chemotaxis-pone.0015309.s001.ogv 12 сек, 316 × 538; 2,13 МБ
  
• An-Improved-Chamber-for-Direct-Visualisation-of-Chemotaxis-pone.0015309.s002.ogv 12 сек, 316 × 531; 2,29 МБ
  
• An-oncogenic-role-of-Agrin-in-regulating-focal-adhesion-integrity-in-hepatocellular-carcinoma-ncomms7184-s2.ogv 2,1 сек, 256 × 256; 87 КБ
  
• An-oncogenic-role-of-Agrin-in-regulating-focal-adhesion-integrity-in-hepatocellular-carcinoma-ncomms7184-s3.ogv 2,3 сек, 696 × 693; 398 КБ
  
• An-oncogenic-role-of-Agrin-in-regulating-focal-adhesion-integrity-in-hepatocellular-carcinoma-ncomms7184-s4.ogv 1,4 сек, 693 × 693; 350 КБ
  
• An-oncogenic-role-of-Agrin-in-regulating-focal-adhesion-integrity-in-hepatocellular-carcinoma-ncomms7184-s5.ogv 2,1 сек, 256 × 256; 48 КБ
  
• An-oncogenic-role-of-Agrin-in-regulating-focal-adhesion-integrity-in-hepatocellular-carcinoma-ncomms7184-s6.ogv 2,1 сек, 256 × 256; 81 КБ
  
• Arginylation-Dependent-Neural-Crest-Cell-Migration-Is-Essential-for-Mouse-Development-pgen.1000878.s016.ogv 19 сек, 736 × 608; 9,69 МБ
  
• Arginylation-Dependent-Neural-Crest-Cell-Migration-Is-Essential-for-Mouse-Development-pgen.1000878.s017.ogv 33 сек, 592 × 496; 2,42 МБ
  
• Arginylation-Dependent-Neural-Crest-Cell-Migration-Is-Essential-for-Mouse-Development-pgen.1000878.s018.ogv 12 сек, 277 × 224; 2,06 МБ
  
• Arginylation-Dependent-Neural-Crest-Cell-Migration-Is-Essential-for-Mouse-Development-pgen.1000878.s019.ogv 12 сек, 304 × 304; 1,96 МБ
  
• Arginylation-Dependent-Neural-Crest-Cell-Migration-Is-Essential-for-Mouse-Development-pgen.1000878.s020.ogv 9,0 сек, 749 × 706; 2,83 МБ
  
• Arp23-complex-activity-in-filopodia-of-spreading-cells-1471-2121-9-65-S1.ogv 1 мин 5 сек, 434 × 440; 1,65 МБ
  
• Arp23-complex-activity-in-filopodia-of-spreading-cells-1471-2121-9-65-S4.ogv 3,8 сек, 210 × 288; 152 КБ
  
• Arp23-complex-activity-in-filopodia-of-spreading-cells-1471-2121-9-65-S5.ogv 20 сек, 750 × 666; 418 КБ
  
• Arp23-complex-activity-in-filopodia-of-spreading-cells-1471-2121-9-65-S6.ogv 21 сек, 614 × 394; 2,49 МБ
  
• Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s006.ogv 14 сек, 1000 × 200; 1,63 МБ
  
• Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s007.ogv 17 сек, 848 × 316; 1,78 МБ
  
• Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s008.ogv 6,9 сек, 970 × 500; 9,07 МБ
  
• Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s009.ogv 3,0 сек, 500 × 400; 217 КБ
  
• Arp23-Inhibition-Induces-Amoeboid-Like-Protrusions-in-MCF10A-Epithelial-Cells-by-Reduced-pone.0100943.s010.ogv 15 сек, 650 × 364; 1,84 МБ
  
• Arrhythmia-Caused-by-a-Drosophila-Tropomyosin-Mutation-Is-Revealed-Using-a-Novel-Optical-Coherence-pone.0014348.s001.ogg 35 сек; 294 КБ
  
• Arrhythmia-Caused-by-a-Drosophila-Tropomyosin-Mutation-Is-Revealed-Using-a-Novel-Optical-Coherence-pone.0014348.s002.ogv 25 сек, 478 × 316; 5,71 МБ
  
• Arrhythmia-Caused-by-a-Drosophila-Tropomyosin-Mutation-Is-Revealed-Using-a-Novel-Optical-Coherence-pone.0014348.s003.ogv 32 сек, 473 × 304; 7,2 МБ
  
• Arrhythmia-Caused-by-a-Drosophila-Tropomyosin-Mutation-Is-Revealed-Using-a-Novel-Optical-Coherence-pone.0014348.s004.ogv 32 сек, 432 × 243; 5,59 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s003.ogv 22 сек, 512 × 384; 2,31 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s004.ogv 10 сек, 715 × 536; 1,2 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s005.ogv 8,5 сек, 512 × 384; 2,1 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s006.ogv 14 сек, 512 × 349; 2,83 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s007.ogv 22 сек, 312 × 234; 2,31 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s008.ogv 8,5 сек, 715 × 536; 918 КБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s009.ogv 20 сек, 512 × 384; 1,26 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s010.ogv 24 сек, 512 × 384; 1,25 МБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s011.ogv 7,2 сек, 580 × 512; 468 КБ
  
• Assembling-Neurospheres-Dynamics-of-Neural-ProgenitorStem-Cell-Aggregation-Probed-Using-an-Optical-pone.0038613.s012.ogv 7,2 сек, 622 × 512; 761 КБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s007.ogv 6,9 сек, 156 × 185; 339 КБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s008.ogv 10 сек, 428 × 235; 1,27 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s009.ogv 40 сек, 1024 × 512; 3,32 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s010.ogv 16 сек, 1024 × 512; 4,15 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s011.ogv 11 сек, 1024 × 512; 6,81 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s012.ogv 5,6 сек, 1024 × 512; 2,06 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s013.ogv 16 сек, 1024 × 512; 2,32 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s014.ogv 30 сек, 970 × 512; 8,82 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s015.ogv 9,9 сек, 1024 × 512; 3,1 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s016.ogv 8,8 сек, 1024 × 512; 1,91 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s017.ogv 45 сек, 359 × 404; 16,37 МБ
  
• Assembly-of-the-Murine-Leukemia-Virus-Is-Directed-towards-Sites-of-Cell–Cell-Contact-pbio.1000163.s018.ogv 45 сек, 1077 × 404; 18,19 МБ
  
• Bidirectional-remodeling-of-β1-integrin-adhesions-during-chemotropic-regulation-of-nerve-growth-1741-7007-9-82-S5.ogv 7,7 сек, 408 × 468; 122 КБ
  
• Bim-and-Bmf-Synergize-To-Induce-Apoptosis-in-Neisseria-Gonorrhoeae-Infection-ppat.1000348.s011.ogv 1,1 сек, 328 × 306; 51 КБ
  
• Bim-and-Bmf-Synergize-To-Induce-Apoptosis-in-Neisseria-Gonorrhoeae-Infection-ppat.1000348.s012.ogv 11 сек, 300 × 294; 936 КБ
  
• Bin2-Is-a-Membrane-Sculpting-N-BAR-Protein-That-Influences-Leucocyte-Podosomes-Motility-and-pone.0052401.s010.ogv 31 сек, 640 × 614; 2,79 МБ
  
• Bin2-Is-a-Membrane-Sculpting-N-BAR-Protein-That-Influences-Leucocyte-Podosomes-Motility-and-pone.0052401.s011.ogv 37 сек, 576 × 550; 2,59 МБ
  
• Biological-Properties-of-Solid-Free-Form-Designed-Ceramic-Scaffolds-with-BMP-2-In-Vitro-and-In-Vivo-pone.0034117.s001.ogv 12 сек, 362 × 256; 140 КБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s1.ogv 28 сек, 1365 × 1024; 5,68 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s10.ogv 15 сек, 1280 × 720; 1,1 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s11.ogv 15 сек, 1280 × 720; 6,04 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s12.ogv 6,0 сек, 1280 × 720; 5,65 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s13.ogv 6,0 сек, 1280 × 720; 802 КБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s14.ogv 1 мин 12 сек, 640 × 480; 6,14 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s2.ogv 36 сек, 640 × 480; 3,84 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s3.ogv 36 сек, 640 × 480; 5,77 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s4.ogv 18 сек, 1365 × 1024; 5,4 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s5.ogv 36 сек, 1365 × 1024; 6,13 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s6.ogv 36 сек, 1365 × 1024; 4,29 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s7.ogv 24 сек, 1365 × 1024; 8,79 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s8.ogv 1 мин 12 сек, 640 × 480; 15,54 МБ
  
• Biological-soliton-in-multicellular-movement-srep02272-s9.ogv 15 сек, 1280 × 720; 10,4 МБ
  
• Breast-Cancer-Antiestrogen-Resistance-3-(BCAR3)-Promotes-Cell-Motility-by-Regulating-Actin-pone.0065678.s002.ogv 21 сек, 840 × 656; 3,54 МБ